If you are doing research through Phys 90r this semester, this google form replaces the old paper form:
https://forms.gle/YgQhmxz4f54CvAT8A
Please fill this out as soon as your 90r research plan is settled. This is just an internal physics form, so don’t forget to officially sign up for 90r in your crimson cart. Let me know if you have any questions.
For the SENIOR Physics and Chem/Phys concentrators among you (but also for non-seniors, for future reference):
I checked through all of the seniors' records and emailed you of any remaining concentration requirements. But just as a double check, in case I missed anyone, here are some general comments and caveats:
1. Even though I checked through things, you should also check through the requirements listed in the Handbook.
2. Ignore the "Advising Report" in my.harvard, as far as the Physics concentration reqs go. It may very well say that some requirements aren't satisfied when in fact they are. The information I emailed to you supersedes the Advising Report. (However, the Gen Ed part of the Advising Report is probably correct, so you _should_ pay attention to that.)
3. Students who skipped 15b and/or 15c (and took an approved substitute instead) are still required to do the labs, on a pass/fail basis. (But no need to do the 15b lab if you took AP50b or PS12b.)
4. The secondary-field information isn't recorded in the system, so I didn't take that into account in my assessment of any remaining requirements. If you are doing a secondary, be aware that only one course can double count for concentration and secondary. (In contrast, there is unlimited double counting in joint concentrations.)
5. Similarly, for the very few students doing the AB/AM program, the system sometimes doesn't show which courses are bracketed. Be aware that bracketed courses can't count for the undergrad part of the degree.
This email is a reminder about the Physics Department's rule for the 15b and 15c labs. This rule applies to Physics concentrators, Chem/Phys concentrators, and students completing a Physics secondary:
If you skip 15b and/or 15c and satisfy the E&M and/or waves requirement by taking an alternative course (approved by Prof. Georgi or me), then you must still complete the 15b and/or 15c labs at some point, on a pass/fail basis. (However, you don't need to do the 15b lab if you took AP50b or PS12b.)
You can complete the labs in a future semester if you wish, but my recommendation is that you do them at the same time you take the alternative course. (Students in 15b and 15c must of course do the lab when taking the course.)
To schedule your lab time, please email, as soon as possible:
15b: Dr. Carey Witkov (witkov(a)fas.harvard.edu)
15c: TF Kristine Rezai (kristinerezai(a)gmail.com)
Please let me know if you have any questions.
From: "Amir, Ariel" <arielamir(a)seas.harvard.edu>
Date: Saturday, July 24, 2021 at 3:53 AM
To: "Morin, David" <djmorin(a)fas.harvard.edu>
Subject: Re: Harvard Physics Circle
Dear Students,
We have been running the "Harvard Physics Circle" successfully for six
years, the last one of which was virtual rather than in-person
mentoring - this worked really well and allowed us to access a greater
number of high-school students all over the globe.
In the project we mentor talented high school physics students and
help them prepare for the physics olympiad competition. Examples of
the challenging questions involved in this competition can be found
here: https://physprob.com/
Feedback from high-school students who participated in previous years
has been extremely positive - and feedback from previous mentors
suggests that the process has been enjoyable and rewarding for them as
well!
Students interested in mentoring should contact:
Prof. Ariel Amir,
arielamir(a)seas.harvard.edu<mailto:arielamir@seas.harvard.edu>
Professor Atac Imamoglu of ETH Zürich: Quantum Optics and Quantum Computing
<https://forms.gle/P3G5TVXY6PT9FQxd9>
<https://harvard.zoom.us/j/2704884384>
Meet our Speaker
*Professor Atac Imamoglu* is full Professor at the Department of Physics at
ETH Zurich and head of the research group on quantum photonics. He is a
graduate of Middle East Technical University, in electrical engineering. He
got his Ph.D. in electrical engineering from Stanford for his work on
Electromagnetically Induced Transparency and Lasers without Inversion. He
did post-doctoral work on atomic and molecular physics at Harvard.
In 1993, he joined the Electrical and Computer Engineering Department of
University of California, Santa Barbara. In 1999, he became a professor of
electrical engineering and physics. In 2001 he moved to the University of
Stuttgart in Germany. Since 2002, he has been working at ETHZ (Swiss
Federal Institute of Technology), Switzerland, where he is heading the
research group on Quantum Photonics.
He received the Charles Townes Award of the Optical Society of America in
2010, Quantum Electronics Award of IEEE in 2009, the Muhammed Dahleh Award
of UCSB in 2006, the Wolfgang Paul Award of the Humboldt Foundation in
2002, the TÜBİTAK prize for physics in 2001, David and Lucile Packard
Fellowship in 1996, and National Science Foundation Career Award in
1995. He is a member of the Scientific Advisory Committee at the IMDEA
Nanoscience Institute. He is a fellow of the American Physical Society, of
the Optical Society of America and the Turkish National Academy of Sciences.
*About the science:*
His group at ETHZ investigates quantum optics of solid-state
zero-dimensional emitters, such as quantum dots or defects, embedded in
photonic nano-structures. They are particularly interested in understanding
physical properties that distinguish these solid-state systems from their
atomic counterparts. Controlling quantum dynamics of quantum dot spins for
applications in quantum information processing is one of their principal
goals. As of February 2009, he had received ~8600 citations according to
the Web of Science.
Professor Imamoglu heads the Quantum Photonics group at ETH. The scientific
activities of the Quantum Photonics group are at the intersection of
quantum optics and condensed-matter physics. While light-matter interaction
in the solid-state is at the core of all their research activities, they
pursue experiments in two complementary directions. On the one hand, they
are interested in quantum optical phenomena that is enriched by the
solid-state physics. On the other hand, they use quantum optical techniques
to investigate many-body physics in two dimensional (2D) materials.
*Cool publications to check out:*
- Signatures of Wigner crystal of electrons in a monolayer
semiconductor: https://www.nature.com/articles/s41586-021-03590-4
- Quantum Information Processing Using Quantum Dot Spins and Cavity QED:
https://journals.aps.org/prl/abstract/10.1103/PhysRevLett.83.4204
- Polariton Electric-Field Sensor:
https://journals.aps.org/prl/abstract/10.1103/PhysRevLett.125.067402
*Stay tuned for a big announcement coming soon…*
Chilloquium is the virtual colloquium for *every* physics student.
These weekly talks:
- lie somewhere between a conversation and a lecture
- highlight each speaker's personal journey as well as their work
- are designed with undergrads in mind
To those joining us for the first time this week, welcome! Note that RSVPs
are not required but help us plan and let you pre-submit questions.
<https://forms.gle/P3G5TVXY6PT9FQxd9>
<https://harvard.zoom.us/j/2704884384>
[image: Facebook] <https://www.facebook.com/groups/2613345588897975/>
[image: Website] <http://www.hcs.harvard.edu/~physics/>
This email was sent to awinnicki(a)college.harvard.edu
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Harvard-Radcliffe Society of Physics Students · 17 Oxford St · Cambridge,
MA 02138-2933 · USA
[image: Email Marketing Powered by Mailchimp]
<http://www.mailchimp.com/email-referral/?utm_source=freemium_newsletter&utm…>
Professor Andrew Houck of Princeton University: Robust, Scalable Quantum
Computing Architecture & Quantum and Non-Linear Optics
<https://forms.gle/BY9tRMDGCB5EzuM17>
<https://harvard.zoom.us/j/2704884384>
Meet our Speaker
*Professor Andrew Houck* is an associate professor of electrical
engineering at Princeton University. His group studies superconducting
quantum circuits, focusing on quantum computing and quantum simulation with
microwave photons. He was an undergrad at Princeton in EE, a Harvard
physics PhD, and a Yale Applied Physics postdoc. Professor Houck is the
inaugural director of the Princeton Quantum Initiative.
*About the science:*
Professor Houck's group focuses on these fully quantum mechanical
integrated circuits, combining basic quantum mechanics, superconducting
electronics, microwave circuits, quantum optics, and low-temperature
measurement. The backbone of their work is a system known as circuit
quantum electrodynamics (cQED). This system consists of a superconducting
qubit coupled to an on-chip microwave resonator; the qubit can absorb and
re-emit a single photon into the cavity hundreds of times before the photon
is lost. This strong coupling opens the door to a vast array of experiments
in quantum computing and non-linear optics.
What follows are the two main thrusts of Professor Houck's research. First,
his group is looking at ways of building a robust scalable quantum
architecture. While small qubit systems have been developed and microwave
cavities have been shown to make a good quantum bus connecting these
qubits, large-scale quantum computers remain a distant goal. Quantum
information is quite fragile, and individual qubits are currently plagued
by information loss, called decoherence. Are there ways of building
individual qubits that are robust to dominant noise sources? Even if
perfect qubits could be achieved, new problems arise as circuits get more
and more complicated. How can we wire up complex systems without destroying
the individual parts? These are the types of quantum computing questions
the Houck group addresses experimentally.
Second, the Houck group studies quantum and non-linear optics. Although
people tend to think of lasers when they hear the term “optics,” the
oscillating voltages and currents in a microwave circuit are also photons,
and all principles of quantum optics apply to these devices as well. In
fact, non-linearities can be much stronger in microwave devices, allowing
us access to a very interesting regime of quantum optics. The goal of this
area of research is to address the central question: What happens when a
system is non-linear at powers where quantization is important?
Read more about Professor Houck's research here
<https://houcklab.princeton.edu/research>.
*Cool publications to check out:*
- Photonic materials in circuit quantum electrodynamics:
https://www.nature.com/articles/s41567-020-0815-y
- Universal gates for protected superconducting qubits using optimal
control:
https://journals.aps.org/pra/abstract/10.1103/PhysRevA.101.022321
- Hyperbolic lattices in circuit quantum electrodynamics:
https://www.nature.com/articles/s41586-019-1348-3
*Stay tuned for a big announcement coming soon…*
Chilloquium is the virtual colloquium for *every* physics student.
These weekly talks:
- lie somewhere between a conversation and a lecture
- highlight each speaker's personal journey as well as their work
- are designed with undergrads in mind
To those joining us for the first time this week, welcome! Note that RSVPs
are not required but help us plan and let you pre-submit questions.
<https://forms.gle/BY9tRMDGCB5EzuM17>
<https://harvard.zoom.us/j/2704884384>
[image: Facebook] <https://www.facebook.com/groups/2613345588897975/>
[image: Website] <http://www.hcs.harvard.edu/~physics/>
This email was sent to awinnicki(a)college.harvard.edu
*why did I get this?*
<https://harvard.us18.list-manage.com/about?u=1247acdc6ba3c6b025f596de5&id=5…>
unsubscribe from this list
<https://harvard.us18.list-manage.com/unsubscribe?u=1247acdc6ba3c6b025f596de…>
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Harvard-Radcliffe Society of Physics Students · 17 Oxford St · Cambridge,
MA 02138-2933 · USA
[image: Email Marketing Powered by Mailchimp]
<http://www.mailchimp.com/email-referral/?utm_source=freemium_newsletter&utm…>
Professor Andrew Houck of Princeton University: Robust, Scalable Quantum
Computing Architecture & Quantum and Non-Linear Optics
<https://forms.gle/BY9tRMDGCB5EzuM17>
<https://harvard.zoom.us/j/2704884384>
Meet our Speaker
*Professor Andrew Houck* is an associate professor of electrical
engineering at Princeton University. His group studies superconducting
quantum circuits, focusing on quantum computing and quantum simulation with
microwave photons. He was an undergrad at Princeton in EE, a Harvard
physics PhD, and a Yale Applied Physics postdoc. Professor Houck is the
inaugural director of the Princeton Quantum Initiative.
*About the science:*
Professor Houck's group focuses on these fully quantum mechanical
integrated circuits, combining basic quantum mechanics, superconducting
electronics, microwave circuits, quantum optics, and low-temperature
measurement. The backbone of their work is a system known as circuit
quantum electrodynamics (cQED). This system consists of a superconducting
qubit coupled to an on-chip microwave resonator; the qubit can absorb and
re-emit a single photon into the cavity hundreds of times before the photon
is lost. This strong coupling opens the door to a vast array of experiments
in quantum computing and non-linear optics.
What follows are the two main thrusts of Professor Houck's research. First,
his group is looking at ways of building a robust scalable quantum
architecture. While small qubit systems have been developed and microwave
cavities have been shown to make a good quantum bus connecting these
qubits, large-scale quantum computers remain a distant goal. Quantum
information is quite fragile, and individual qubits are currently plagued
by information loss, called decoherence. Are there ways of building
individual qubits that are robust to dominant noise sources? Even if
perfect qubits could be achieved, new problems arise as circuits get more
and more complicated. How can we wire up complex systems without destroying
the individual parts? These are the types of quantum computing questions
the Houck group addresses experimentally.
Second, the Houck group studies quantum and non-linear optics. Although
people tend to think of lasers when they hear the term “optics,” the
oscillating voltages and currents in a microwave circuit are also photons,
and all principles of quantum optics apply to these devices as well. In
fact, non-linearities can be much stronger in microwave devices, allowing
us access to a very interesting regime of quantum optics. The goal of this
area of research is to address the central question: What happens when a
system is non-linear at powers where quantization is important?
Read more about Professor Houck's research here
<https://houcklab.princeton.edu/research>.
*Cool publications to check out:*
- Photonic materials in circuit quantum electrodynamics:
https://www.nature.com/articles/s41567-020-0815-y
- Universal gates for protected superconducting qubits using optimal
control:
https://journals.aps.org/pra/abstract/10.1103/PhysRevA.101.022321
- Hyperbolic lattices in circuit quantum electrodynamics:
https://www.nature.com/articles/s41586-019-1348-3
*Stay tuned for a big announcement coming soon…*
Chilloquium is the virtual colloquium for *every* physics student.
These weekly talks:
- lie somewhere between a conversation and a lecture
- highlight each speaker's personal journey as well as their work
- are designed with undergrads in mind
To those joining us for the first time this week, welcome! Note that RSVPs
are not required but help us plan and let you pre-submit questions.
<https://forms.gle/BY9tRMDGCB5EzuM17>
<https://harvard.zoom.us/j/2704884384>
[image: Facebook] <https://www.facebook.com/groups/2613345588897975/>
[image: Website] <http://www.hcs.harvard.edu/~physics/>
This email was sent to awinnicki(a)college.harvard.edu
*why did I get this?*
<https://harvard.us18.list-manage.com/about?u=1247acdc6ba3c6b025f596de5&id=5…>
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Harvard-Radcliffe Society of Physics Students · 17 Oxford St · Cambridge,
MA 02138-2933 · USA
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